Products

SiCare® 2114P Silicone Resin Powder

    • Product Name: SiCare® 2114P Silicone Resin Powder
    • Alias: KMP-599
    • Einecs: 701-427-3
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    760435

    Product Name SiCare® 2114P Silicone Resin Powder
    Appearance White free-flowing powder
    Inci Name Polymethylsilsesquioxane
    Particle Size 2-10 μm (D50)
    Density Approx. 1.32 g/cm³
    Melting Point > 300°C
    Oil Absorption 120-150 ml/100g
    Surface Area 4-8 m²/g
    Residual Siloxane Content < 1.0%
    Ph Value 6.0 - 7.5 (dispersion in water)
    Application Cosmetic formulations
    Storage Conditions Keep in a tightly sealed container in a cool, dry place

    As an accredited SiCare® 2114P Silicone Resin Powder factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing SiCare® 2114P Silicone Resin Powder is packaged in a 20kg net weight fiber drum with a polyethylene inner liner for protection.
    Shipping SiCare® 2114P Silicone Resin Powder is securely packed in sealed, moisture-proof, and anti-static bags or drums to ensure product integrity during shipping. Packages are clearly labeled and handled according to chemical safety regulations. The shipment is arranged via reliable carriers, with proper documentation and tracking for safe and timely delivery.
    Storage SiCare® 2114P Silicone Resin Powder should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and moisture. Keep the container tightly sealed to prevent contamination and absorption of atmospheric moisture. Avoid storing near strong oxidizing agents. For best performance, use the product within the recommended shelf life indicated by the manufacturer.
    Application of SiCare® 2114P Silicone Resin Powder

    Applications of SiCare® 2114P Silicone Resin Powder in Industrial Manufacturing

    SiCare® 2114P Silicone Resin Powder supports advanced material engineering in several industrial segments. As a genuine manufacturer, we ensure full traceability and process integration for real-world downstream clients. The following detailed applications highlight industry-specific requirements, process roles, and the diversity of finished goods enabled by this key raw material.

    1. High-Temperature Resistant Industrial Coatings

    Silicone resin powder is essential for formulating heat-resistant coatings used on industrial machinery, exhaust systems, and processing line equipment. The material delivers durable thermal barrier properties, maintains gloss, and protects against oxidation at sustained service temperatures up to 600°C. Downstream manufacturers blend the resin with inorganic pigments and fillers to achieve long-term stability in harsh thermal cycles. Strict control of formulation percentage is needed to avoid film cracking or underperformance, with the resin introduced during premixed binder preparation. Final coatings are mainly applied to ovens, furnaces, automotive exhaust components, and chemical reactors.

    Industry compliance standards

    • ASTM D2485 (Standard Test Methods for Heat-Resistant Organic Coatings)
    • ISO 12944-5 (Protective Paint Systems for Steel Structures)
    • REACH (EU Regulation on Registration, Evaluation, Authorisation and Restriction of Chemicals)
    • RoHS (Restriction of Hazardous Substances Directive for electrical equipment coatings)

    Typical usage ratio

    • 10–25% by weight of total binder solids, adjusted for required heat resistance and mechanical properties

    Downstream process integration

    • Added as a dry powder during resin binder preparation and pre-dispersion phases
    • Dispersed using high-shear mixers to ensure homogeneous integration with inorganic pigments and solvents
    • Filtration and viscosity adjustment prior to application by spray or roller coating systems
    • Curing in industrial ovens or on-line stoving units to achieve full film crosslinking

    Final product types

    • Industrial furnace linings
    • Automotive turbocharger and exhaust coatings
    • Heat-protective panels and housings
    • Chemical plant equipment linings

    2. Weatherable Coil Coating Primers for Metal Panels

    Silicone resin powder is used to enhance coil coating primers on galvanized and cold-rolled steel panels in the construction and appliance sectors. The powder increases outdoor weather resistance, UV stability, and corrosion inhibition for building facades, roofing, and white goods. Compliance is centered on architectural coating regulations, particularly for public and commercial installations. Process engineers add the powder to the primer binder system during melt compounding or solvent blending, prior to application by continuous coil coating lines. Finished panels meet durability requirements for performance warranties in extreme climates.

    Industry compliance standards

    • EN 13523 (Prepainted metal tests for building applications)
    • ASTM A755/A755M (Steel Sheet, Metallic Coated and Prepainted)
    • GHS (Globally Harmonized System of Classification & Labelling of Chemicals for paint compounding)
    • GB/T 2518 (China national standard for coil-coated steel panels)

    Typical usage ratio

    • 5–12% by weight of solid polymer binder, based on required exposure performance (adjustment for panel substrate and primer type)

    Downstream process integration

    • Dry powder introduced during bulk binder mixing
    • Dispersed under temperature-controlled conditions to ensure full dissolution and resin crosslinking
    • Applied to panels via automated roll coaters on continuous coil lines
    • Infrared or gas-fired oven curing to achieve target primer adhesion and mechanical properties

    Final product types

    • Architectural wall panels
    • Prepainted galvanized roofing sheets
    • Commercial cladding systems
    • Exterior appliance housings

    3. Surface-Modified Powder Coatings for Consumer Electronics

    Manufacturers of powder coatings for consumer electronics incorporate silicone resin powder to achieve smooth, anti-fingerprint, and abrasion-resistant finishes. The material imparts superior mar resistance and surface slip, supporting the aesthetic and tactile requirements of smartphone, laptop, and appliance enclosures. ISO and IEC sector certifications require careful material traceability and testing at each formulation step. The powder is blended directly with epoxy or polyester powder bases during extrusion before micronization. Finished powder coatings enable precise electrostatic application and uniform curing.

    Industry compliance standards

    • IEC 62321 (Determination of Certain Substances in Electrotechnical Products)
    • ISO 8130 (Powder Coatings Standard Tests)
    • UL 746C (Polymeric Materials – Use in Electrical Equipment Evaluations)
    • RoHS Directive compliance for all coated electronic goods

    Typical usage ratio

    • 1–8% by weight of total powder mix, optimized for anti-mar and slip balance without affecting color properties

    Downstream process integration

    • Direct incorporation into resin/pigment batch before extrusion and cooling
    • High-speed blending in micronization stage to achieve consistent particle morphology
    • Sieving prior to discharge into automated powder coating booths
    • Post-cure sampling for abrasion and chemical resistance verification

    Final product types

    • Smartphone and tablet enclosures
    • Laptop bodies and accessories
    • Home appliance control panels and housings
    • Wearable device exteriors

    4. Hydrophobic Additive in Architectural Exterior Paints

    Architectural paint producers employ silicone resin powder as a hydrophobic agent to upgrade masonry, stucco, and mineral-based paints for the European and Asian construction markets. The powder promotes water beading and reduces capillary water uptake, supporting moisture management and facade durability. Local building codes and paint VOC content limitations shape both formulation and certification. Formulators blend the resin in the pigment grind phase or as a post-additive, based on required binder compatibility. Quality managers monitor dispersion and long-term exterior exposure to verify compliance and performance.

    Industry compliance standards

    • EN 1504-2 (Products and systems for the protection and repair of concrete structures – Hydrophobic impregnation)
    • ISO 16000-9 (VOC emissions in building materials)
    • GB 24408 (Water-based exterior wall coatings standard — China)
    • German VdL Guideline for facade paint production

    Typical usage ratio

    • 0.5–3% by weight of total wet paint, fine-tuned according to required water repellence and paint type

    Downstream process integration

    • Incorporation into pigment grind or resin emulsion before high-shear blending
    • Use of dispersing agents and pH adjustment to stabilize resin in high-solid or waterborne systems
    • QC approval for viscosity and uniform hydrophobic effect before bulk filling
    • Product field testing on representative wall sections

    Final product types

    • Mineral-based facade paints
    • Hydrophobic masonry coatings
    • Cement plaster primers
    • Weather-resistant architectural paints

    5. Intermediate for Siloxane-Based Release Agents

    The powder serves as a silicone phase component in the production of high-performance release agents for rubber and plastics processing. Formulation chemists working for tire, gasket, and technical molding operations rely on the resin to control surface tension properties and enhance release uniformity. Industry standards mandate full documentation of system ingredients, especially for food-contact and medical molding. Engineers add the powder during release agent concentrate blending, ensuring total solubilization with siloxane oil carriers before downstream dilution and application on molds or belts.

    Industry compliance standards

    • FDA 21 CFR 175.300 (Resinous and polymeric coatings for food contact)
    • EU Regulation No. 10/2011 (Plastics materials and articles intended to come into contact with food)
    • ISO 21401 (General requirements for mold release agents in technical manufacturing)
    • China GB 4806.10 (Standard on coatings and release agents for food packaging)

    Typical usage ratio

    • 3–15% by weight in release agent concentrates, refined for mold type, substrate, and thermal conditions

    Downstream process integration

    • Integrated with siloxane fluids and dispersing agents in heated blend tanks
    • High-shear homogenization for particle size control and clarity
    • QC monitoring of viscosity, film formation, and release performance pre-shipment
    • Batched for customer-specific dilution in water or solvent carriers prior to mold line application

    Final product types

    • Rubber tire release agents
    • Technical gasket and seal release coatings
    • Thermoplastic injection mold agents
    • Food-grade mold release sprays

    6. Binder for Glass Fiber-Reinforced Composites

    Producers of glass fiber-reinforced panels use the powder as a binder and sizing component to enhance fiber wetting, resistance to creeping, and crosslink bonding in composite laminates. The powder’s chemical structure supports matrix cohesion during high-temperature curing in FRP panel manufacturing. Compliance covers fire resistance and mechanical property retention. Operators incorporate the resin powder at the solution preparation or fiber impregnation stage, using thermal or solvent-based techniques to ensure uniform binder distribution.

    Industry compliance standards

    • EN 13501-1 (Fire classification of construction products)
    • ISO 1268 (Fiber-reinforced plastics — Testing of laminates)
    • ASTM D3171 (Composites—Constituent Content Determination)
    • UL 94 (Flammability of Plastic Materials)

    Typical usage ratio

    • 2–8% by weight of total binder phase, adjusted according to laminate thickness and service temperature

    Downstream process integration

    • Dissolved into binder solution or applied as dry powder at glass fiber sizing
    • Thermal activation to crosslink binder during composite layup
    • Interfacing with other sizing agents and modifiers for processability
    • Continuous or batch curing in pressurized ovens or autoclaves

    Final product types

    • Electrical insulation panels
    • Architectural cladding boards
    • High-performance FRP pipes
    • Building and transport laminates

    Free Quote

    Competitive SiCare® 2114P Silicone Resin Powder prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.

    We will respond to you as soon as possible.

    Tel: +8615365186327

    Email: admin@ascent-chem.com

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    Certification & Compliance
    More Introduction

    SiCare® 2114P Silicone Resin Powder: What Decades in Silicone Taught Us

    Looking Inside the Factory – The Value of SiCare® 2114P

    On the production floor, every batch of SiCare® 2114P silicone resin powder stirs up more than just a tank of chemicals. After decades making organosilicon materials, we’ve learned that a product’s story starts well before it arrives at its final application. SiCare® 2114P doesn’t simply represent a formula—the transformation comes from careful handling of raw materials, tight quality checks, and a keen sense of how each shift on the line contributes directly to the consistency in the field.

    Silicone resin powders often occupy the space between tradition and innovation. Some players stick with legacy nitrocellulose, acrylic, or polyurethane systems even when customers demand more resistance to weather, chemicals, or extreme heat. What sets 2114P apart is a foundation built on methyl and phenyl siloxane units, which we’ve refined over time. By striking the right ratio, we achieve powder flow and particle stability that consistently surprises formulators moving from liquid or emulsion phases. It’s a field-level advancement—not just talk in our lab meetings—because that blend lets our customers chase performance ceilings unreachable with natural or petroleum-derived resins.

    Why 2114P Earns Its Place in Challenging Applications

    As a team deeply rooted in industrial chemistry, our people worry about more than selling volume. They’re here evenings and weekends making sure every batch anchors trust in the field. SiCare® 2114P emerged from customer needs in paints, coatings, and personal care sectors. In high-temperature-resistant coatings, for example, the need for thermal stability isn’t a suggestion—it’s a survival rule for the formulator. Methyl-phenyl silicone resins resist discoloration and volume loss where phenolic or alkyd resins would blister or chalk under the same heat.

    We tested our powder against surfactant-rich environments, UV exposure, and persistent moisture. Each result pointed to silicone powder outperforming both organic and lower-grade silicone solutions—especially in cyclical exposure. Whether customers work in architectural coatings or color cosmetics, that reliability matters. SiCare® 2114P won’t yellow, lose its film properties, or cake under ambient swing. Beyond the charts, our batch records track consistency across years, reported by clients measuring their own yields.

    Moving beyond coatings, we see our work surface in makeup bases and sunscreens. In these, 2114P provides a soft-focus matte effect without the comedogenic troubles that fill customer complaint files for traditional waxes and mineral extenders. Our focus on particle size uniformity keeps the application smooth and comfortable—an improvement that came from feedback on batch grittiness years ago.

    Practical Know-How: Performance Under Pressure

    On the most basic level, performance in the field trumps laboratory specification sheets. We always ask customers: how does a resin powder act with real solvents, under actual shop temperatures, and with unpredictable humidity? SiCare® 2114P keeps its distinct edge here. The melt resistance, softening point, and tactility feel honest to our largest and smallest users alike. We calibrate micronization and surface treatment tightly, limits which some distributors loosen for easier throughput. Our lines reject off-spec lots quickly—if the powder clumps, flows out of tolerance, or picks up excess static, it’s restarted or scrapped.

    We’ve watched customers substitute legacy organic fillers with SiCare® 2114P in attempted one-to-one swaps, only to see dramatic differences. Lower resin migration, higher permeability to moisture vapor, and balanced spread contribute to longer life in specialty applications. For powder coatings, it’s not just a cosmetic change: using 2114P helps reduce powder agglomeration and ensures tough, uniform finishes, in both gloss and matte systems. In antifoam or defoamer compounds, the absence of extraneous surfactant migration helps keep clarity and gloss where users need it. We’ve witnessed great improvements in flow and stability, particularly in powder blends where maintaining a non-caking particle is essential to shelf life.

    Clients in the cosmetics industry use SiCare® 2114P for that featherlight aesthetic in pressed or loose finishing powders. Unlike talc or starch, the silicone structure resists sweat and sebum, supporting a clean finish through real wear. Chemists in personal care lines have reported improved adhesion and brightness—feedback traced back to careful resin treatment steps in our reactors, not just packaging and shipping tricks.

    Manufacturing That Makes a Difference

    The value in SiCare® 2114P lies not only in its core chemistry, but in the way we build and batch it. Every successful cycle comes from a manufacturing backbone that values both hard data and line experience. We emphasize staff training so people on every shift can spot variances in viscosity, filter effectiveness, or discharge flow that sometimes slip by automation. It’s not glamour work, but it’s what keeps the powder consistent when factors like upstream siloxane purity or incoming monomer shifts threaten a plant’s reliability.

    Production here relies on both legacy reactors and newer energy-efficient batch systems. These offer scalability so fast-moving industries, like electronics or textiles, don’t face raw material delays. We don’t cut corners—inspection, packaging, and in-process sampling all feed into a real-time production record. This is how we can trace any performance concern back to a shift, a batch, or even to the operator’s judgment. Any customer complaint gets a root-cause analysis and corrective plan, never shrugged off or blamed on “market conditions.”

    Raw material traceability anchors our process. The global supply chain for siloxane monomers can shift rapidly—natural disasters, energy shortages, or regulatory changes. We work this reality daily by qualifying multiple supply points, routine contaminant screening, and backup purification systems. Several times, factories less rigorous than ours shipped powders prone to yellowing or poor flow. It’s this willingness to invest in process resilience that sets 2114P above similar powders from manufacturers focused purely on speed.

    What Sets SiCare® 2114P Apart in Real Terms?

    A direct comparison with other silicone resins or even high-purity organic resins exposes important advantages. We see formulators gravitate to 2114P for its clear melt resistance above 300°C—not just a number on paper, but a relief for operators running continuous ovens, or those working in climates prone to temperature extremes. At the particle level, our focus on tight size distribution gives more consistent blending outcomes, which translates into smoother integration whether in hydrophobic coatings, cosmetics, or even textile finishes.

    Some competitors prioritize cost control at the expense of performance. Resins bulking with cheap fillers or cutting corners in end-capping and surface treatment often cause headaches under real working conditions: lumps in fluidized bed processing, chalking in UV paints, or poor adhesion in pressed powders. SiCare® 2114P consistently dodges these traps. The real value comes from what’s not in the powder—no phthalates, no excess chlorides, no loosely-bound surfactants. That’s the standard we hold ourselves to, rooted by customer feedback and decades solving the same problems.

    We also notice the long-term benefit in shelf life. A well-finished, stable silicone powder breaks the frequent pattern of raw materials losing properties in storage—especially across seasons or long transit routes. That translates to fewer rejected batches and less waste for our clients. Our powder resists clumping, static build-up, and oil pickup even in humid warehouses.

    How Industry Experience Drives Development

    Over the years, we’ve seen technologies and market demands shift overnight. From the coatings industry’s surge toward low-VOC solutions to rapid changes in regulatory approvals for cosmetic ingredients, staying flexible has always paid off. As manufacturers, we field requests to adjust product forms, particle sizes, and even packaging for easier integration into various processes—whether pneumatic powder transfer, simple shake-and-blend, or precise pitch in automated lines.

    Feedback from formulators, engineers, and end users doesn’t disappear into a suggestion box. In the case of 2114P, usability improvements came from direct observations: how the powder loaded in mixers during summer versus winter months, whether the particles maintained dry flow during overseas shipping, or how the finished coating responded to repeated washing or prolonged UV. Adjustments to our finishing stages—such as fine-tuning surface treatment, changing filter media, or recalibrating drying cycles—trace directly back to frustrations and successes customers share with us.

    This connection with field users—painters, chemists, production supervisors—keeps our approach grounded. Our research team knows the job is only half-done at pilot scale. Setting up full production with real-world distribution and technical support closes the loop that many newcomers miss. If a performance gap appears, we work side by side with customers to troubleshoot, retest, and iterate batches, tracking every tweak until outcomes satisfy the demands of daily operations.

    What SiCare® 2114P Means for Tomorrow’s Applications

    Market needs rarely hold steady. Just a few years ago, key partners were chasing hydrophobicity in marine and outdoor coatings with mixed success. The silicone backbone in 2114P outperforms organics by tuning the interaction between water droplets and surfaces, supporting both repellency and breathability. The environmental advantage stands out in applications where formulators push to reduce the use of heavy metals, halogenated additives, or complex multi-resin blends. Our silicone composition covers more ground without heavily loading the system, which means easier compliance down the chain.

    In personal care, the shift toward minimalist formulations keeps gaining ground. Chemists look for multi-tasking materials: powders that provide soft focus, better slip, and resilience against skin oils in one addition. SiCare® 2114P checks these boxes with a proven track record. Users report cleaner labels, reduced ingredient lists, and fewer reformulation headaches when regulators tighten up on legacy talc or certain polymers. These aren’t just marketing claims but the direct results of side-by-side testing and real consumer feedback.

    Electronics coatings and specialty textiles face another pressure: the growing need for high-performance materials that handle heat, humidity, and mechanical wear. Here, our powder supports ultra-thin, flexible coatings without sacrificing protection. Over the years, we have supplied partners developing foldable displays, ultra-light consumer goods, and weatherproof packaging solutions that rely on powder that doesn’t compromise flexibility or stability. The silicone structure lets designers push boundaries.

    Improvement Never Ends: How Feedback Shapes the Product

    Open communication with users keeps SiCare® 2114P a moving target. We don’t view feedback as critique—it fuels iterative upgrades, whether shifting purity, refining surface treatment, or re-examining packaging design for better storage. Several years ago, a client in architectural coatings struggled with inconsistent matte textures due to microclumping from transit vibration. Our plant team changed filtration and introduced tighter particle fraction controls. Follow-up batches yielded the right aesthetic, which in turn opened new business across regions with stricter climate swings.

    Another example came from a personal care producer who ran into disperse-ability issues at high pigment loads. Our lab swapped out certain process stabilizers, improving wetting and letting users disperse pigments directly onto the silicone’s surface instead of relying on extra surfactants. That means shorter run times, fewer ingredients, and a cleaner process that passes regulatory checks with fewer questions.

    The push for more sustainable solutions reshapes our sourcing too. We keep close tabs on upstream suppliers’ environmental controls, labor practices, and energy footprints. As a full-cycle manufacturer, not a repackager, our responsibility extends all the way from sourcing raw siloxanes to the final packaged powder. That level of control grants us the flexibility to answer customer calls for better stewardship, not just lower cost.

    Supporting Real-World Problem Solving

    Our technical support scales with each customer’s process complexity, not with volume alone. Applications engineers combine field visits with batch records and incoming material data to help troubleshoot or optimize users’ workflows. Whether it’s a malfunction in a powder coating line or a mysterious shift in pressed powder feel, users trust the face-to-face conversations that stem from deep product knowledge. We view successful troubleshooting as part of our commitment, a shared responsibility.

    Our model of ongoing collaboration doesn’t just serve large accounts. Small and medium-size enterprises often discover process bottlenecks that bigger players missed. We field calls about anti-caking in monsoon climates, flowability in automated makeup filling lines, or resilience under tough storage conditions. Every scenario helps us track patterns and keeps our R&D focused on improvements with direct, lasting impact.

    Every technical document we provide links to current production records and shipping logs. If users encounter anomalies, our system lets us investigate by tracing each step from raw goods through blending, finishing, testing, and dispatch. This level of traceability helps us and our partners catch missteps early, preventing repeating problems or unexplained failures.

    Bringing New Customers Into the Fold

    We know trying a new material involves risk for production managers, chemists, and regulatory staff. Our experience shows that conversions to SiCare® 2114P usually follow rigorous side-by-side tests with incumbent solutions. Because every environment brings its own complexity, we support evaluations with hands-on technical guidance, real batch histories, and open results—never cherry-picking ideal scenarios. Whether integrating into a robust spray coating line, a compact cosmetic press, or a delicate electronics finish, we help map out expected shifts in performance.

    Long-standing relationships with global partners have taught us the value of support and responsiveness over mere unit price. When new customers run first trials, they see that our powder’s behavior echoes what we ourselves see every day in our own production. We supply transparent batch and quality data, listen to feedback, and review outcomes in real time. Our willingness to answer tough questions—and to recalibrate when something goes wrong—earns the trust that conversion requires.

    Continuous Refinement and Community Involvement

    Every advancement in SiCare® 2114P reflects not just internal R&D, but engagement with the wider community of users, raw material suppliers, and technical experts. We work alongside industry associations, research institutes, and standards bodies to keep our methods on the leading edge. Our production chemists participate in field trials and conferences, learning from users across sectors what matters most—long before the next regulation, supply disruption, or reformulation trend hits.

    Our internal standards go beyond minimums set by regulators or certifying agencies. Employees challenge each other to run deeper tests: what happens at the edges of the temperature or humidity range? Which storage conditions start to erode powder performance? This culture of shared responsibility keeps us focused on improvement, not just compliance or cost management.

    We believe that the best way to serve partners is to be transparent about process and prepared to act quickly. Our track record reflects that belief, built across decades of meeting production and environmental challenges head-on.

    Conclusion: Real Manufacturing, Real Results

    SiCare® 2114P silicone resin powder stands as more than just a product—it’s the result of years of labor, learning, and adaptation. Our journey began in chemical reactors but continues every day in conversations with users, batch refinements, and tough decisions at the production line. The key differences between our powder and others in the field come from hard-won experience, persistent pursuit of consistency, and a simple respect for the challenges our partners face.

    Each kilogram of SiCare® 2114P has a backstory—a run watched over by skilled operators, a formulation improved by field users, and a commitment to go past shortcuts that might compromise results. As those who make the powder, our team takes pride in solutions that work not just in the lab, but in the busy world of modern industry.

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